Proceedings of the Second Mediterranean Conference on Marine Turtles
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Supplementary Tales
Metabarcoding reveals different zooplankton communities in northern and southern areas of the North Sea Jan Niklas Macher, Berry B. van der Hoorn, Katja T. C. A. Peijnenburg, Lodewijk van Walraven, Willem Renema Supplementary tables 1-5 Table S1: Sampling stations and recorded abiotic variables recorded during the NICO 10 expedition from the Dutch Coast to the Shetland Islands Sampling site name Coordinates (°N, °E) Mean remperature (°C) Mean salinity (PSU) Depth (m) S74 59.416510, 0.499900 8.2 35.1 134 S37 58.1855556, 0.5016667 8.7 35.1 89 S93 57.36046, 0.57784 7.8 34.8 84 S22 56.5866667, 0.6905556 8.3 34.9 220 S109 56.06489, 1.59652 8.7 35 79 S130 55.62157, 2.38651 7.8 34.8 73 S156 54.88581, 3.69192 8.3 34.6 41 S176 54.41489, 4.04154 9.6 34.6 43 S203 53.76851, 4.76715 11.8 34.5 34 Table S2: Species list and read number per sampling site Class Order Family Genus Species S22 S37 S74 S93 S109 S130 S156 S176 S203 Copepoda Calanoida Acartiidae Acartia Acartia clausi 0 0 0 72 0 170 15 630 3995 Copepoda Calanoida Acartiidae Acartia Acartia tonsa 0 0 0 0 0 0 0 0 23 Hydrozoa Trachymedusae Rhopalonematidae Aglantha Aglantha digitale 0 0 0 0 1870 117 420 629 0 Actinopterygii Trachiniformes Ammodytidae Ammodytes Ammodytes marinus 0 0 0 0 0 263 0 35 0 Copepoda Harpacticoida Miraciidae Amphiascopsis Amphiascopsis cinctus 344 0 0 992 2477 2500 9574 8947 0 Ophiuroidea Amphilepidida Amphiuridae Amphiura Amphiura filiformis 0 0 0 0 219 0 0 1470 63233 Copepoda Calanoida Pontellidae Anomalocera Anomalocera patersoni 0 0 586 0 0 0 0 0 0 Bivalvia Venerida -
Chapter XXV —Class Oligochaeta
Chapter XXV —Class Oligochaeta (Aquatic Worms)- Phylum Annelida Oligochaetes are common in most freshwater habitats, but they are often ignored by freshwater biologists because they are thought to be extraordinarily difficult to identify. The extensive taxo- nomic work done since 1960 by Brinkhurst and others, however, has enabled routine identifica- tion of most of our freshwater oligochaetes from simple whole mounts. Some aquatic worms closely resemble terrestrial earthworms while others can be much narrower or thread-like. Many aquatic worms can tolerate low dissolved oxygen and may be found in large numbers in organi- cally polluted habitats. Aquatic worms can be distinguished by: (Peckarsky et al., 1990) • Body colour may be red, tan, brown or black. • Cylindrical, thin (some are very thin), segmented body may be upto 5 inches. • May have short bristles or hairs (setae) that help with movement (usually not visible). • Moves by stretching and pulling its body along in a worm-like fashion. Four families in the orders Tubificida and Lumbriculida are common in freshwater in northeastern North America: the Tubificidae, Naididae, Lumbriculidae, and Enchytraeidae. In addition, fresh- water biologists sometimes encounter lumbricine oligochaetes (order Lumbricina; the familiar earthworms), haplotaxid oligochaetes (order Haplotaxida; rare inhabitants of groundwater), Aeolosoma (class Aphanoneura; small worms once classified with the oligochaetes), and Manayunkia speciosa (class Polychaeta) in waters of northeastern North America. (Peckarsky et al., 1990). The two families, Naididae and Tubificidae form 80 to 100% of the annelid communi- ties in the benthos of most streams and lakes at all trophic levels. They range in size from 0.1 cm in Naididae to 3 or 4 cm in relaxed length in Lumbricidae, the family that contains the earth- worms. -
Reef Building Mediterranean Vermetid Gastropods: Disentangling the Dendropoma Petraeum Species Complex J
Research Article Mediterranean Marine Science Indexed in WoS (Web of Science, ISI Thomson) and SCOPUS The journal is available on line at http://www.medit-mar-sc.net DOI: http://dx.doi.org/10.12681/mms.1333 Zoobank: http://zoobank.org/25FF6F44-EC43-4386-A149-621BA494DBB2 Reef building Mediterranean vermetid gastropods: disentangling the Dendropoma petraeum species complex J. TEMPLADO1, A. RICHTER2 and M. CALVO1 1 Museo Nacional de Ciencias Naturales (CSIC), José Gutiérrez Abascal 2, 28006 Madrid, Spain 2 Oviedo University, Faculty of Biology, Dep. Biology of Organisms and Systems (Zoology), Catedrático Rodrigo Uría s/n, 33071 Oviedo, Spain Corresponding author: [email protected] Handling Editor: Marco Oliverio Received: 21 April 2014; Accepted: 3 July 2015; Published on line: 20 January 2016 Abstract A previous molecular study has revealed that the Mediterranean reef-building vermetid gastropod Dendropoma petraeum comprises a complex of at least four cryptic species with non-overlapping ranges. Once specific genetic differences were de- tected, ‘a posteriori’ searching for phenotypic characters has been undertaken to differentiate cryptic species and to formally describe and name them. The name D. petraeum (Monterosato, 1884) should be restricted to the species of this complex dis- tributed around the central Mediterranean (type locality in Sicily). In the present work this taxon is redescribed under the oldest valid name D. cristatum (Biondi, 1857), and a new species belonging to this complex is described, distributed in the western Mediterranean. These descriptions are based on a comparative study focusing on the protoconch, teleoconch, and external and internal anatomy. Morphologically, the two species can be only distinguished on the basis of non-easily visible anatomical features, and by differences in protoconch size and sculpture. -
Marine Geophysical Research
Marine Geophysical Research Seabed mapping in the Pelagie Islands Marine Protected Area (Sicily Channel, southern Mediterranean) using Remote Sensing Object Based Image Analysis (RSOBIA) --Manuscript Draft-- Manuscript Number: MARI-D-18-00014R2 Full Title: Seabed mapping in the Pelagie Islands Marine Protected Area (Sicily Channel, southern Mediterranean) using Remote Sensing Object Based Image Analysis (RSOBIA) Article Type: Original Research Keywords: Multibeam bathymetry; backscatter; benthoscapes; seabed classification; ground- truth data; Posidonia oceanica; coralligenous habitat. Corresponding Author: Sara Innangi Istituto per l'ambiente marino costiero Consiglio Nazionale delle Ricerche ITALY Corresponding Author Secondary Information: Corresponding Author's Institution: Istituto per l'ambiente marino costiero Consiglio Nazionale delle Ricerche Corresponding Author's Secondary Institution: First Author: Sara Innangi First Author Secondary Information: Order of Authors: Sara Innangi Renato Tonielli Claudia Romagnoli Francesca Budillon Gabriella Di Martino Michele Innangi Roberta La Terza Tim Le Bas Claudio Lo Iacono Order of Authors Secondary Information: Funding Information: Abstract: AcceptedIn this paper we present the seabed maps of the shallow-water areas of Lampedusa and Linosa, belonging to the Pelagie Islands Marine Protected Area. Two surveys were carried out (“Lampedusa2015” and “Linosa2016”) to collect bathymetric and acoustic backscatter data through the use of a Reson SeaBat 7125 high-resolution multibeam system. Ground-truth -
ICES Marine Science Symposia
ICES mar. Sei. Symp., 199: 209-221. 1995 Decapod crustaceans in the diets of demersal fish in the Cantabrian Sea I. Olaso and E. Rodriguez-Marin Olaso, I., and Rodriguez-Marin, E. 1995. Decapod crustaceans in the diets of demer sal fish in the Cantabrian Sea. - ICES mar. Sei. Symp., 199: 209-221. The diets of 14 species of demersal fish, representing 81% of the fish biomass of the Cantabrian Sea (ICES Division VIIIc), were determined in the spring and autumn of 1988 from the analysis of 6536 stomachs. Decapod crustaceans represented 54.3% of the diet of these fish in frequency of occurrence and 22.1% in percentage by volume. The main prey taxa were: Solenocera membranacea, Alpeus glaber, the Crangonidae and Processidae families within the Natantia, the Paguridae and Galatheidae families within the Anomura, and Goneplax rhomboides and the Portunidae family within the Brachyura. Predator-prey linkages were described and each predator was assigned to the size group that would best demonstrate any size-related feeding pattern. I. Olaso and E. Rodriguez-Marin: Instituto Espanol de Oceanografia, Laboratorio Oceanogrâfico de Santander. Apdo240, 39080 Santander, Cantabria, Spain [tel: (+34) 42 2740431275033, fax: (+34) 42 275072], Introduction Studies of size, distribution, and abundance of prey and diet selection by predators were conducted because The Bay of Biscay forms a well-defined unit because of these parameters play a fundamental role in the selec its geographical location and semi-enclosed nature. The tion of diet and have the advantage of being easily southern part of this gulf, called the Cantabrian Sea, is a quantified (Murdoch and Oaken, 1975; Vince et al., transition zone and its fish and crustacean inhabitants 1976). -
Phylogenetic and Phenetic Systematics of The
195 PHYLOGENETICAND PHENETICSYSTEMATICS OF THE OPISTHOP0ROUSOLIGOCHAETA (ANNELIDA: CLITELLATA) B.G.M. Janieson Departnent of Zoology University of Queensland Brisbane, Australia 4067 Received September20, L977 ABSTMCT: The nethods of Hennig for deducing phylogeny have been adapted for computer and a phylogran has been constructed together with a stereo- phylogran utilizing principle coordinates, for alL farnilies of opisthopor- ous oligochaetes, that is, the Oligochaeta with the exception of the Lunbriculida and Tubificina. A phenogran based on the sane attributes conpares unfavourably with the phyLogralnsin establishing an acceptable classification., Hennigrs principle that sister-groups be given equal rank has not been followed for every group to avoid elevation of the more plesionorph, basal cLades to inacceptabl.y high ranks, the 0ligochaeta being retained as a Subclass of the class Clitellata. Three orders are recognized: the LumbricuLida and Tubificida, which were not conputed and the affinities of which require further investigation, and the Haplotaxida, computed. The Order Haplotaxida corresponds preciseLy with the Suborder Opisthopora of Michaelsen or the Sectio Diplotesticulata of Yanaguchi. Four suborders of the Haplotaxida are recognized, the Haplotaxina, Alluroidina, Monil.igastrina and Lunbricina. The Haplotaxina and Monili- gastrina retain each a single superfanily and fanily. The Alluroidina contains the superfamiJ.y All"uroidoidea with the fanilies Alluroididae and Syngenodrilidae. The Lurnbricina consists of five superfaniLies. -
Earthworms (Annelida: Oligochaeta) of the Columbia River Basin Assessment Area
United States Department of Agriculture Earthworms (Annelida: Forest Service Pacific Northwest Oligochaeta) of the Research Station United States Columbia River Basin Department of the Interior Bureau of Land Assessment Area Management General Technical Sam James Report PNW-GTR-491 June 2000 Author Sam Jamesis an Associate Professor, Department of Life Sciences, Maharishi University of Management, Fairfield, IA 52557-1056. Earthworms (Annelida: Oligochaeta) of the Columbia River Basin Assessment Area Sam James Interior Columbia Basin Ecosystem Management Project: Scientific Assessment Thomas M. Quigley, Editor U.S. Department of Agriculture Forest Service Pacific Northwest Research Station Portland, Oregon General Technical Report PNW-GTR-491 June 2000 Preface The Interior Columbia Basin Ecosystem Management Project was initiated by the USDA Forest Service and the USDI Bureau of Land Management to respond to several critical issues including, but not limited to, forest and rangeland health, anadromous fish concerns, terrestrial species viability concerns, and the recent decline in traditional commodity flows. The charter given to the project was to develop a scientifically sound, ecosystem-based strategy for managing the lands of the interior Columbia River basin administered by the USDA Forest Service and the USDI Bureau of Land Management. The Science Integration Team was organized to develop a framework for ecosystem management, an assessment of the socioeconomic biophysical systems in the basin, and an evalua- tion of alternative management strategies. This paper is one in a series of papers developed as back- ground material for the framework, assessment, or evaluation of alternatives. It provides more detail than was possible to disclose directly in the primary documents. -
Herpetofauna and Aquatic Macro-Invertebrate Use of the Kino Environmental Restoration Project (KERP)
Herpetofauna and Aquatic Macro-invertebrate Use of the Kino Environmental Restoration Project (KERP) Tucson, Pima County, Arizona Prepared for Pima County Regional Flood Control District Prepared by EPG, Inc. JANUARY 2007 - Plma County Regional FLOOD CONTROL DISTRICT MEMORANDUM Water Resources Regional Flood Control District DATE: January 5,2007 TO: Distribution FROM: Julia Fonseca SUBJECT: Kino Ecosystem Restoration Project Report The Ed Pastor Environmental Restoration ProjectiKino Ecosystem Restoration Project (KERP) is becoming an extraordinary urban wildlife resource. As such, the Pima County Regional Flood Control District (PCRFCD) contracted with the Environmental Planning Group (EPG) to gather observations of reptiles, amphibians, and aquatic insects at KERP. Water quality was also examined. The purpose of the work was to provide baseline data on current wildlife use of the KERP site, and to assess water quality for post-project aquatic wildlife conditions. I additionally requested sampling of macroinvertebrates at Agua Caliente Park and Sweetwater Wetlands in hopes that the differences in aquatic wildlife among the three sites might provide insights into the different habitats offered by KERF'. The results One of the most important wildlife benefits that KERP provides is aquatic habitat without predatory bullfrogs and non- native fish. Most other constructed ponds and wetlands in Tucson, such as the Sweetwater Wetlands and Agua Caliente pond, are fuIl of non-native predators which devastate native fish, amphibians and aquatic reptiles. The KERP Wetlands may provide an opportunity for reestablishing declining native herpetofauna. Provided that non- native fish, bullfrogs or crayfish are not introduced, KERP appears to provide adequate habitat for Sonoran Mud Turtles (Kinosternon sonoriense), Lowland Leopard Frogs (Rana yavapaiensis), and Mexican Gartersnakes (Tharnnophis eques) and Southwestern Woodhouse Toad (Bufo woodhousii australis). -
Arhynchobdellida (Annelida: Oligochaeta: Hirudinida): Phylogenetic Relationships and Evolution
MOLECULAR PHYLOGENETICS AND EVOLUTION Molecular Phylogenetics and Evolution 30 (2004) 213–225 www.elsevier.com/locate/ympev Arhynchobdellida (Annelida: Oligochaeta: Hirudinida): phylogenetic relationships and evolution Elizabeth Bordaa,b,* and Mark E. Siddallb a Department of Biology, Graduate School and University Center, City University of New York, New York, NY, USA b Division of Invertebrate Zoology, American Museum of Natural History, New York, NY, USA Received 15 July 2003; revised 29 August 2003 Abstract A remarkable diversity of life history strategies, geographic distributions, and morphological characters provide a rich substrate for investigating the evolutionary relationships of arhynchobdellid leeches. The phylogenetic relationships, using parsimony anal- ysis, of the order Arhynchobdellida were investigated using nuclear 18S and 28S rDNA, mitochondrial 12S rDNA, and cytochrome c oxidase subunit I sequence data, as well as 24 morphological characters. Thirty-nine arhynchobdellid species were selected to represent the seven currently recognized families. Sixteen rhynchobdellid leeches from the families Glossiphoniidae and Piscicolidae were included as outgroup taxa. Analysis of all available data resolved a single most-parsimonious tree. The cladogram conflicted with most of the traditional classification schemes of the Arhynchobdellida. Monophyly of the Erpobdelliformes and Hirudini- formes was supported, whereas the families Haemadipsidae, Haemopidae, and Hirudinidae, as well as the genera Hirudo or Ali- olimnatis, were found not to be monophyletic. The results provide insight on the phylogenetic positions for the taxonomically problematic families Americobdellidae and Cylicobdellidae, the genera Semiscolex, Patagoniobdella, and Mesobdella, as well as genera traditionally classified under Hirudinidae. The evolution of dietary and habitat preferences is examined. Ó 2003 Elsevier Inc. All rights reserved. -
Marine Turtles
UNEP/MED IG.24/22 Page 372 Decision IG.24/7 Strategies and Action Plans under the Protocol concerning Specially Protected Areas and Biological Diversity in the Mediterranean, including the SAP BIO, the Strategy on Monk Seal, and the Action Plans concerning Marine Turtles, Cartilaginous Fishes and Marine Vegetation; Classification of Benthic Marine Habitat Types for the Mediterranean Region, and Reference List of Marine and Coastal Habitat Types in the Mediterranean The Contracting Parties to the Convention for the Protection of the Marine Environment and the Coastal Region of the Mediterranean and its Protocols at their 21st Meeting, Recalling the outcome document of the United Nations Conference on Sustainable Development, entitled “The future we want”, endorsed by the General Assembly in its resolution 66/288 of 27 July 2012, in particular those paragraphs relevant to biodiversity, Recalling also General Assembly resolution 70/1 of 25 September 2015, entitled “Transforming our world: the 2030 Agenda for Sustainable Development”, and acknowledging the importance of conservation, the sustainable use and management of biodiversity in achieving the Sustainable Development Goals, Recalling further the United Nations Environment Assembly resolutions UNEP/EA.4/Res.10 of 15 March 2019, entitled “Innovation on biodiversity and land degradation”, Bearing in mind the international community’s commitment expressed in the Ministerial Declaration of the United Nations Environment Assembly at its fourth session to implement sustainable ecosystems -
DXCC Entity Prefix Confirm. Needed Grid Square.Rev: 7/30/21 Cont. Sov
confirm. DXCC Entity Prefix Grid Square.rev: 7/30/21 Cont. needed Sov. Mil. Order of 1A0 1 JM75 EU Malta Monaco 3A 1 JN33 EU Agalega & St.Brandon 3B6,7 1 LH89 AF Mauritius 3B8 1 LG89 AF Rodriguez Is. 3B9 1 MH10 AF Equatorial Guinea 3C 1 JJ41, 51 AF Annobon Is. 3C0 1 JI28 AF Fiji 3D2/f 3 RH81-83, 90-93, AH01-03 OC Conway Reef 3D2/c 1 RG78 OC Rotuma Is. 3D2/r 1 RH87 OC Swaziland 3DA 2 KG52-54, 62-63 AF 3DA after eSwatini 2 KG52-54, 62-63 AF 18Apr2018 Tunisia 3V 2 JM33-34, 40-47, 50-57 AF OJ28-29, 39, OK20-21, 27-38, 40-46, Vietnam 3W, XV 4 AS OL00-01, 10-12, 20 IJ39, 48-49, 57-59, IK20-21, 30-32, 40-42, Guinea 3X 2 AF 50-52 Bouvet 3Y 1 JD15 AF Peter 1 Is. 3Y 1 EC41 AN LM 28-29, 38-39, 48-49, LN 20-21, 30-31. Azerbaijan 4J, 4K 3 AS 40-41, 50 Georgia 4L 3 LN 01-03, 11-13, 21-22, 31-32 AS Montenegro 4O after 28Jun2006 1 JN 91-93, KN 02-03 EU Sri Lanka 4P-4S 2 MJ 96-99, NJ 06-09 AS ITU HQ 4U_ITU (Geneva) 1 JN 36 EU 4U_UN United Nations HQ 1 FN 30 NA (New York) Timor-Leste 4W 1 PI 20-21, 30-31 OC Israel 4X, 4Z 3 KL 79, KM 70-73 AS JL 45-49, 53-59, 63-69, 72-79, 83-89, 91-99, JM 40, 50-52, 60-62, 70-72, 80-81, 90, KL Libya 5A 2 AF 00-09, 10-19, 20-29, KM 00-02, 10-12, 20- 21 Cyprus 5B 2 KM 64-65, 74-75 AS KH 78-89, 98-99, KI 43-45, 51-58, 60-67, Tanzania 5H-5I 3 AF 70-78, 80-87, 90-95 JJ 16-19, 24-29, 34-39, 44-49, 56-59, 68-69, Nigeria 5N-5O 3 JK 10-11, 20-23, 30-33, 40-43, 50-53, 60- AF 63, 71-72 LG 15-19, 24-29, 34-39, 47-49, LH 12, 20- Madagascar 5R-5S 2 AF 24, 30-36, 40-48, 53-56 Mauritania 5T 2 IK 16-19, 26-29, 34-39, 45-49, 55-59, 65-69, -
An Evolutionary Solution of Terrestrial Isopods to Cope with Low
© 2017. Published by The Company of Biologists Ltd | Journal of Experimental Biology (2017) 220, 1563-1567 doi:10.1242/jeb.156661 SHORT COMMUNICATION An evolutionary solution of terrestrial isopods to cope with low atmospheric oxygen levels Terézia Horváthová*, Andrzej Antoł, Marcin Czarnoleski, Jan Kozłowski and Ulf Bauchinger ABSTRACT alternatively represent secondary adaptations to meet changing The evolution of current terrestrial life was founded by major waves of oxygen requirements in organisms subject to environmental land invasion coinciding with high atmospheric oxygen content. change. These waves were followed by periods with substantially reduced Here, we show that catch-up growth is probably a further example oxygen concentration and accompanied by the evolution of novel of such an evolutionary innovation. Switching from aquatic to air traits. Reproduction and development are limiting factors for conditions during development within the motherly brood pouch of Porcellio scaber evolutionary water–land transitions, and brood care has probably the terrestrial isopod relaxes oxygen limitations facilitated land invasion. Peracarid crustaceans provide parental care and facilitates accelerated growth under motherly protection. Our for their offspring by brooding the early stages within the motherly findings provide important insights into the role of oxygen in brood brood pouch, the marsupium. Terrestrial isopod progeny begin care in present-day terrestrial crustaceans. ontogenetic development within the marsupium in water, but conclude development within the marsupium in air. Our results for MATERIALS AND METHODS progeny growth until hatching from the marsupium provide evidence Experimental animals for the limiting effects of oxygen concentration and for a potentially Early development in terrestrial isopods occurs sequentially in adaptive solution.